Heat slug propagation in QUELL. Part I: Experimental setup and 1-fluid GANDALF analysis

Cryogenics

Volumn 39, Issue 7, 1999, Pages 585-593

  Zanino, R ^a   Marinucci, C ^b  

^a POLITECNICO DI TORINO   (Italy)

^b EPFL   (Switzerland)

Author keywords

[No Author keywords available]

Indexed keywords

ELECTRIC CONDUITS; HEAT CONDUCTION; MAGNETS; MATHEMATICAL MODELS; QUENCHING; SUPERFLUID HELIUM;

CABLE-IN-CONDUIT CONDUCTORS; FUSION MAGNETS; HEAT SLUG PROPAGATION;

SUPERCONDUCTING CABLES;

EID: 0033312827     PISSN: 00112275     EISSN: None     Source Type: Journal    
DOI: 10.1016/S0011-2275(99)00074-0     Document Type: Article

References (23)

1. Anghel A, et al. The quench experiment on long length (QUELL). Final report 1997.
2. Hamada K, et al. Thermal and hydraulic measurement in the ITER QUELL experiments. Adv Cryo Eng 1998;43;197-204.
3. Salpietro E ITER toroidal field model coil (TFMC) design and construction. Fus Technol. 34:1998;797-801.
4. Komarek P, Salpietro E The test facility for the ITER TF model coil. Fus Eng Des. 41:1998;213-221.
5. Mitchell N, et al. ITER CS model coil project. In: ICEC16 Proceedings, 1997:763-766.
6. Tsuji H, et al. ITER Central Solenoid Model Coil Test Program (1998). Presented at The 17th IAEA Fusion Energy Conference.
7. Zanino R, Bottura L, Marinucci C. A comparison between 1 and 2-fluid simulations of the QUELL conductor. IEEE Trans Appl Supercond 1997;7:493-496.
8. Bottura L A numerical model for the simulation of quench in the ITER magnets. J. Comput. Phys. 125:1996;26-41.
9. Zanino R, De Palo S, Bottura L A two-fluid code for the thermohydraulic transient analysis of CICC superconducting magnets. J Fus Energy. 14:1995;25-40.
10. Zanino R, Bottura L, Marinucci C Computer simulation of quench propogation in QUELL. Adv Cryo Eng. 43:1998;181-188.
11. Marinucci C, Bottura L, Vecsey G, Zanino R The QUELL experiment as a validation tool for the numerical code GANDALF. Cryogenics. 38:1998;467-477.
12. DePalo S, Marinucci C, Zanino R Stability estimate for CICC with cooling channel using one and two-fluid codes. Adv Cryo Eng. 43:1998;333-339.
13. Zanino R, Marinucci C, Savoldi L. Two-fluid analysis of the thermal-hydraulic stability of ITER CS and TF super-conductors. In: ICEC17 Proceedings, 1998:361-364.
14. Marinucci C, Savoldi L, Zanino R. Stability analysis of the ITER TF and CS conductors using the code GANDALF. IEEE Trans Appl Supercond, to appear.
15. Zanino R, Bottura L, Savoldi L, Rosso C MITHRANDIR+: a two-channel model for thermal-hydraulic analysis of cable-in-conduit super-conductors cooled with helium I or II. Cryogenics. 38:1998;525-531.
16. Zanino R, Savoldi L, Tessarin F, Bottura L. Effects of bundle/hole coupling parameters in the two-fluid thermal-hydraulic analysis of quench propagation in two-channel cable-in-conduit conductors. IEEE Trans Appl Supercond, to appear.
17. Zanino R, Marinucci C. Heat slug propagation in QUELL. Part II: 2-fluid MITHRANDIR analysis, Cryogenics, to appear.
18. Koizumi N, Ito T. Calibration of inductive heating energy of QUELL conductor by calorimetric method. Report JASC-96-638 1996 (5 p.).
19. Ito T, et al. Evaluation of inductive heating energy of Quench Experiment on Long Length (QUELL) conductor with the calorimetric method. In: ICEC16 Proceedings 1996:1301-1304.
20. Anghel A. Private communication, 1998.
21. Takahashi Y. Private communication, 1998.
22. Katheder H. Optimum thermohydraulic operation regime for cable in Conduit Superconductors CICS. In: ICEC15 Proceedings 1994:595-598.
23. Shaji A, Freidberg JP. In Ref. 1, pp. 128-130.